Monitoring system for a container glass forming machine

1 . A monitoring system for a container glass forming machine, for monitoring at least a blank side section, a blow side section with individual molds, deadplates, and/or a transfer conveyor belt for transport of container,

wherein the monitoring system is connected to the container glass forming machine,

wherein the monitoring system comprises a data acquisition and analyzing unit with at least one coupled sensor, which is controlled by software, running on the data acquisition and analyzing unit, recording and processing sensor data,

wherein the at least one sensor is at least one visible light camera, connected to the data acquisition and analyzing unit and placed in such a way that visible light video streams in real time can be taken at least from the blank side section, the blow side section, the deadplates, and/or the transfer conveyor belt and transferred to the data acquisition and analyzing unit, said visible light video streams are processed by the software based on artificial neural networks, which learned to detect an error or anomaly in the acquired visible light video streams by algorithms in the data acquisition and analyzing unit, and

wherein in case of detection of an error, an alert to an operator is issued by an alerting and/or feedback unit on a stationary personal computing device or on a mobile device and/or the manufacturing process is stopped by feedback signal via the alerting and/or feedback unit to a processing unit of the container glass forming machine;

wherein with a presence sensor as part of the monitoring system and connected to the data acquisition and analyzing unit, at least one of the presence or absence of an operator in real time, abnormal human behavior, and type of operation taken by an operator, is detected, influencing the nature of the alert.

2 . The monitoring system according to claim 1 , wherein the software is based on a continuously trained artificial neural network, continuously improving error detection.

3 . The monitoring system according to claim 1 , wherein the presence sensor is the at least one visible light camera.

4 . The monitoring system according to claim 1 , wherein the type of operation taken by the operator includes at least one of swabbing, manually checking container quality, a tool change, and a mechanical parts change.

5 . The monitoring system according to claim 1 , wherein the at least one visible light camera is placed in at least one heat-resistant and self-cleaning case.

6 . The monitoring system according to claim 1 , wherein the at least one visible light camera includes at least two visible light cameras for monitoring at least the blank side section, the blow side section, the deadplates, and/or the transfer conveyor belt of an individual section machine.

7 . The monitoring system according to claim 1 , wherein a stop feedback signal is sent from the alerting and/or feedback unit via the data acquisition and analyzing unit to the processing unit of the container glass forming machine.

8 . The monitoring system according to claim 1 , wherein the processing unit of the container glass forming machine forms one part with the data acquisition and analyzing unit and the alerting and/or feedback unit.

9 . The monitoring system according to claim 1 , wherein the mobile device is a mobile phone, a smart phone, a tablet, or a wearable device.

10 . The monitoring system according to claim 1 , wherein in case of detection of an error the manufacturing process is stop in at least one of the blank side section, the blow side section, the deadplates, and the transfer conveyor belt.

11 . A manufacturing method of a glass container with a container glass forming machine, monitored with the monitoring system according to claim 1 , the method comprising:

pushing a stream of molten glass from a gob distributor subsequently cut to gobs in the blank side section and subsequently the blow side section, the deadplates on the transfer conveyor belt controlled by the processing unit,

monitoring in real time and producing video streams with the at least one visible light camera, transferring and analyzing the video streams with data acquisition and analyzing unit,

wherein video data is processed in the data acquisition and analyzing unit by the software based on artificial neural networks, which learned to realize an error or anomaly in the acquired visible video streams by algorithms in the data acquisition and analyzing unit, before

wherein an alert is sent after error detection to an operator by the alerting and/or feedback unit on a stationary personal computing device or on a mobile device and/or wherein the manufacturing process is manipulated in one or all of the blank side section, the blow side section, the deadplates, and the transfer conveyor belt via signals from the alerting and/or feedback unit to the processing unit of the container glass forming machine;

wherein the monitoring system provides a presence sensor, connected to the data acquisition and analyzing unit, detecting at least one of the presence or absence of an operator, abnormal human behavior, and type of action taken by the operator in real time, while the production process is running, and wherein an alert matched to the presence of the operator is sent via the alerting and/or feedback unit to the stationary personal computing device or the mobile device to the operator.

12 . The manufacturing method according to claim 11 , wherein the software is based on a continuously trained artificial neural networks, continuously improving error detection and possible alerting.

13 . The manufacturing method according to claim 11 , wherein the presence sensor is a visible light camera.

14 . The manufacturing method according to claim 13 , wherein the data acquisition and analyzing unit is also trained software based on artificial neural networks, for detecting presence or absence of human operators using the visible light cameras and their video images in real time, which can trigger an alert by the connected alerting and/or feedback unit.

15 . A method of upgrading a commercially available container glass forming machine like individual section machines, the method comprising adding the monitoring system according to claim 1 to the individual section machines.